Discontinued (Discontinued) MF6200 Proton Exchange Membrane for water electrolysis

Proton Exchange Membrane Description

The Proton Exchange Membrane for water electrolysis is the core component of the hydrogen fuel cell membrane electrode assembly (MEA). Within the fuel cell, the proton exchange membrane provides a channel for the migration and transport of protons, allowing protons to move through the membrane from the anode to the cathode, thereby forming a loop with the electron transfer of the external circuit to produce electrical power.

The PEM offers a reliable and efficient solution for generating high-purity hydrogen. With its compact construction, rapid response time, and ability to operate under high pressure, PEM electrolyzers are ideal for applications ranging from renewable energy storage to industrial hydrogen supply. Although the technology faces challenges including high material costs and durability concerns, ongoing advancements are rapidly improving its scalability and economic feasibility. As a critical component in the transition to green hydrogen and sustainable energy systems, PEM electrolysis plays a central role in supporting global efforts for decarbonisation and the promotion of a clean energy future.

Specification of the Proton Exchange Membrane

Physical and other properties

Swelling Performance

Proton Exchange Membrane Application

• Hydrogen Fuel Production:

Utilised for generating hydrogen for fuel cells in vehicles and stationary power systems.

• Renewable Energy Storage:

Converts excess power from solar or wind energy into hydrogen for long-term storage.

• Chemical Industry:

Supplies hydrogen for ammonia production, refining, and other chemical processes.

• Decarbonisation:

Assists the industry in reducing carbon emissions by replacing fossil-derived hydrogen with green hydrogen.

Proton Exchange Membrane Packaging

Our Proton Exchange Membrane for water electrolysis is carefully handled during storage and transport to maintain the quality of our product in its original state.